Capture what compute leaves behind.
The Charge Controller accumulates inference potential from completed workloads, adapting each Charge Cycle to your capacity envelope.
A software-defined capacity layer for AI inference.
Accumulate potential on your existing compute.
Make it available to whatever comes next.
Every inference workload generates computational potential that traditional runtimes simply discard. Inference Capacitance captures that potential at the middleware layer and makes it reusable across future workloads.
The Charge Controller accumulates inference potential from completed workloads, adapting each Charge Cycle to your capacity envelope.
An Inference Capacitor™ preserves generalized reasoning potential inside a software-defined Dielectric Layer™, isolated by workload.
Discharge retained potential into future requests. Burst Discharge absorbs demand spikes before live inference needs to scale.
Caches reuse outputs when inputs repeat. Inference Capacitance preserves computational potential independent of specific inputs, allowing future workloads to benefit even when prompts, context, and outputs differ.
Reasoning capacity becomes an operational resource. Inspect potential, tune retention, and understand exactly how ready your infrastructure is for its next workload.
TiR = tera-inferences of retained reasoning potential. Normalized at nominal inference voltage; independent of response token count.
Traditional infrastructure purchases capacity at the moment of demand. A retained capacity layer smooths the compute envelope—without asking workloads to wait.
Peak live-inference cost1
p95 response latency1
1. IC-Labs Capacity Envelope Study 26.09. Reference workload: 120k heterogeneous requests, 8× burst factor, 72h retention, adaptive mode. Compared with an unbuffered runtime at equivalent model quality. Figures represent modeled behavior in a synthetic reference environment; results depend on initial charge and discharge policy.
Inference Capacitance is middleware you install between your applications and your inference backends. Start with a runtime in your Kubernetes cluster. Keep execution, policies, and retained potential inside your infrastructure.
$ helm install capacitance \
oci://registry.inferencecap.io/runtime# Retain today. Reason tomorrow.
capacitance:
mode: adaptive
retention: 72h
leakageTolerance: 0.04
dischargePolicy: latency-firstGeneralized reasoning capacity retained after completed computation, available to workloads that have yet to arrive.
The maximum inference potential a deployment can retain, expressed in TiR and governed by its software capacity envelope.
The readiness gradient of retained potential. Higher voltage enables faster discharge into latency-sensitive requests.
The gradual loss of stored inference relevance over time. Managed continuously against your retention policy.
A logical isolation boundary that prevents potential interference between retained workloads and tenant capacity pools.
The adaptive scheduler that balances accumulation, retention, and discharge as workload conditions evolve.
Unlike conventional caches, Inference Capacitors do not store responses. They preserve generalized computational potential derived from completed inference work, allowing future workloads to consume previously accumulated reasoning capacity without requiring semantic equivalence.
Software. The runtime is installed in your infrastructure and connects to your existing inference providers. It does not supply GPUs, store electrical energy, or require specialized hardware. Charge and discharge describe the lifecycle of inference potential.
The runtime routes requests to your configured compute backends. Completed inference replenishes the capacity pool through the next Charge Cycle. Applications continue using the same inference interface.
No. Potential is retained independently of the input that generated it. Semantic similarity, prompt hashes, and response matching are not prerequisites for discharge.
Start with the potential consumed during your typical burst window. The Charge Controller calibrates nominal capacitance against workload entropy, retention horizon, and acceptable leakage. Adaptive mode continuously adjusts the usable envelope.
Yes. A response cache resolves known requests. The capacitance layer makes accumulated potential available to new requests. Deploy both to retain outputs and the computational capacity beyond them.